Bending of cilia and flagella results from sliding between the microtubular outer doublets, driven by dynein motor enzymes. This review reminds us that many questions remain to be answered before we can understand how dynein-driven sliding causes the oscillatory bending of cilia and flagella. Does oscillation require switching between two distinct, persistent modes of dynein activity? Only one mode, an active forward mode, has been characterized, but an alternative mode, either inactive or reverse, appears to be required. Does switching between modes use information from curvature, sliding direction, or both? Is there a mechanism for reciprocal inhibition? Can a localized capability for oscillatory sliding become self-organized to produce t...
Cilia and flagella are hairlike organelles that propel cells through fluid. The active motion of the...
AbstractEukaryotic flagella produce a swimming force by coordinating thousands of dynein motor prote...
Cilia and eukaryotic flagella are slender cellular appendages whose regular beating propels cells an...
Bending of cilia and flagella results from sliding between the microtubular outer doublets, driven b...
AbstractThe movement of eukaryotic flagella is characterized by its oscillatory nature [1]. In sea u...
AbstractThe motion of flagella and cilia arises from the coordinated activity of dynein motor protei...
Cilia and flagella are model systems for studying how mechanical forces control morphology. The peri...
Abstract Dynein is a minus-end-directed motor that generates oscillatory motion in eukaryotic flagel...
The physical basis of flagellar and ciliary beating is a major problem in biology which is still far...
AbstractThe bending of cilia and flagella is driven by forces generated by dynein motor proteins. Th...
The bending of cilia and flagella is driven by forces generated by dynein motor proteins. These forc...
Generating the complex waveforms characteristic of beating eukaryotic cilia and flagella requires sp...
Abstract: Eukaryotic flagella and cilia have attracted the attention of many researchers over the la...
Cilia and flagella are hair-like appendages of eukaryotic cells. They are actively bending structure...
Cilia and flagella are model systems for studying how mechanical forces control morphology. The peri...
Cilia and flagella are hairlike organelles that propel cells through fluid. The active motion of the...
AbstractEukaryotic flagella produce a swimming force by coordinating thousands of dynein motor prote...
Cilia and eukaryotic flagella are slender cellular appendages whose regular beating propels cells an...
Bending of cilia and flagella results from sliding between the microtubular outer doublets, driven b...
AbstractThe movement of eukaryotic flagella is characterized by its oscillatory nature [1]. In sea u...
AbstractThe motion of flagella and cilia arises from the coordinated activity of dynein motor protei...
Cilia and flagella are model systems for studying how mechanical forces control morphology. The peri...
Abstract Dynein is a minus-end-directed motor that generates oscillatory motion in eukaryotic flagel...
The physical basis of flagellar and ciliary beating is a major problem in biology which is still far...
AbstractThe bending of cilia and flagella is driven by forces generated by dynein motor proteins. Th...
The bending of cilia and flagella is driven by forces generated by dynein motor proteins. These forc...
Generating the complex waveforms characteristic of beating eukaryotic cilia and flagella requires sp...
Abstract: Eukaryotic flagella and cilia have attracted the attention of many researchers over the la...
Cilia and flagella are hair-like appendages of eukaryotic cells. They are actively bending structure...
Cilia and flagella are model systems for studying how mechanical forces control morphology. The peri...
Cilia and flagella are hairlike organelles that propel cells through fluid. The active motion of the...
AbstractEukaryotic flagella produce a swimming force by coordinating thousands of dynein motor prote...
Cilia and eukaryotic flagella are slender cellular appendages whose regular beating propels cells an...